android_kernel_samsung_sm8650-modules/msm/sde/sde_hw_top.c

// SPDX-License-Identifier: GPL-2.0-only
/*
 * Copyright (c) 2015-2019, The Linux Foundation. All rights reserved.
 */

#include "sde_hwio.h"
#include "sde_hw_catalog.h"
#include "sde_hw_top.h"
#include "sde_dbg.h"
#include "sde_kms.h"

#define SSPP_SPARE                        0x28
#define UBWC_DEC_HW_VERSION               0x058
#define UBWC_STATIC                       0x144
#define UBWC_CTRL_2                       0x150
#define UBWC_PREDICTION_MODE              0x154

#define FLD_SPLIT_DISPLAY_CMD             BIT(1)
#define FLD_SMART_PANEL_FREE_RUN          BIT(2)
#define FLD_INTF_1_SW_TRG_MUX             BIT(4)
#define FLD_INTF_2_SW_TRG_MUX             BIT(8)
#define FLD_TE_LINE_INTER_WATERLEVEL_MASK 0xFFFF

#define DANGER_STATUS                     0x360
#define SAFE_STATUS                       0x364

#define TE_LINE_INTERVAL                  0x3F4

#define TRAFFIC_SHAPER_EN                 BIT(31)
#define TRAFFIC_SHAPER_RD_CLIENT(num)     (0x030 + (num * 4))
#define TRAFFIC_SHAPER_WR_CLIENT(num)     (0x060 + (num * 4))
#define TRAFFIC_SHAPER_FIXPOINT_FACTOR    4

#define MDP_WD_TIMER_0_CTL                0x380
#define MDP_WD_TIMER_0_CTL2               0x384
#define MDP_WD_TIMER_0_LOAD_VALUE         0x388
#define MDP_WD_TIMER_1_CTL                0x390
#define MDP_WD_TIMER_1_CTL2               0x394
#define MDP_WD_TIMER_1_LOAD_VALUE         0x398
#define MDP_WD_TIMER_2_CTL                0x420
#define MDP_WD_TIMER_2_CTL2               0x424
#define MDP_WD_TIMER_2_LOAD_VALUE         0x428
#define MDP_WD_TIMER_3_CTL                0x430
#define MDP_WD_TIMER_3_CTL2               0x434
#define MDP_WD_TIMER_3_LOAD_VALUE         0x438
#define MDP_WD_TIMER_4_CTL                0x440
#define MDP_WD_TIMER_4_CTL2               0x444
#define MDP_WD_TIMER_4_LOAD_VALUE         0x448

#define MDP_TICK_COUNT                    16
#define XO_CLK_RATE                       19200
#define MS_TICKS_IN_SEC                   1000

#define CALCULATE_WD_LOAD_VALUE(fps) \
	((uint32_t)((MS_TICKS_IN_SEC * XO_CLK_RATE)/(MDP_TICK_COUNT * fps)))

#define DCE_SEL                           0x450

#define ROT_SID_RD			  0x20
#define ROT_SID_WR			  0x24
#define ROT_SID_ID_VAL			  0x1c

static void sde_hw_setup_split_pipe(struct sde_hw_mdp *mdp,
		struct split_pipe_cfg *cfg)
{
	struct sde_hw_blk_reg_map *c;
	u32 upper_pipe = 0;
	u32 lower_pipe = 0;

	if (!mdp || !cfg)
		return;

	c = &mdp->hw;

	if (cfg->en) {
		if (cfg->mode == INTF_MODE_CMD) {
			lower_pipe = FLD_SPLIT_DISPLAY_CMD;
			/* interface controlling sw trigger */
			if (cfg->intf == INTF_2)
				lower_pipe |= FLD_INTF_1_SW_TRG_MUX;
			else
				lower_pipe |= FLD_INTF_2_SW_TRG_MUX;

			/* free run */
			if (cfg->pp_split_slave != INTF_MAX)
				lower_pipe = FLD_SMART_PANEL_FREE_RUN;

			upper_pipe = lower_pipe;

			/* smart panel align mode */
			lower_pipe |= BIT(mdp->caps->smart_panel_align_mode);
		} else {
			if (cfg->intf == INTF_2) {
				lower_pipe = FLD_INTF_1_SW_TRG_MUX;
				upper_pipe = FLD_INTF_2_SW_TRG_MUX;
			} else {
				lower_pipe = FLD_INTF_2_SW_TRG_MUX;
				upper_pipe = FLD_INTF_1_SW_TRG_MUX;
			}
		}
	}

	SDE_REG_WRITE(c, SSPP_SPARE, cfg->split_flush_en ? 0x1 : 0x0);
	SDE_REG_WRITE(c, SPLIT_DISPLAY_LOWER_PIPE_CTRL, lower_pipe);
	SDE_REG_WRITE(c, SPLIT_DISPLAY_UPPER_PIPE_CTRL, upper_pipe);
	SDE_REG_WRITE(c, SPLIT_DISPLAY_EN, cfg->en & 0x1);
}

static u32 sde_hw_get_split_flush(struct sde_hw_mdp *mdp)
{
	struct sde_hw_blk_reg_map *c;

	if (!mdp)
		return 0;

	c = &mdp->hw;

	return (SDE_REG_READ(c, SSPP_SPARE) & 0x1);
}

static void sde_hw_setup_pp_split(struct sde_hw_mdp *mdp,
		struct split_pipe_cfg *cfg)
{
	u32 ppb_config = 0x0;
	u32 ppb_control = 0x0;

	if (!mdp || !cfg)
		return;

	if (cfg->split_link_en) {
		ppb_config |= BIT(16); /* split enable */
		ppb_control = BIT(5); /* horz split*/
	} else if (cfg->en && cfg->pp_split_slave != INTF_MAX) {
		ppb_config |= (cfg->pp_split_slave - INTF_0 + 1) << 20;
		ppb_config |= BIT(16); /* split enable */
		ppb_control = BIT(5); /* horz split*/
	}

	if (cfg->pp_split_index && !cfg->split_link_en) {
		SDE_REG_WRITE(&mdp->hw, PPB0_CONFIG, 0x0);
		SDE_REG_WRITE(&mdp->hw, PPB0_CNTL, 0x0);
		SDE_REG_WRITE(&mdp->hw, PPB1_CONFIG, ppb_config);
		SDE_REG_WRITE(&mdp->hw, PPB1_CNTL, ppb_control);
	} else {
		SDE_REG_WRITE(&mdp->hw, PPB0_CONFIG, ppb_config);
		SDE_REG_WRITE(&mdp->hw, PPB0_CNTL, ppb_control);
		SDE_REG_WRITE(&mdp->hw, PPB1_CONFIG, 0x0);
		SDE_REG_WRITE(&mdp->hw, PPB1_CNTL, 0x0);
	}
}

static void sde_hw_setup_cdm_output(struct sde_hw_mdp *mdp,
		struct cdm_output_cfg *cfg)
{
	struct sde_hw_blk_reg_map *c;
	u32 out_ctl = 0;

	if (!mdp || !cfg)
		return;

	c = &mdp->hw;

	if (cfg->wb_en)
		out_ctl |= BIT(24);
	else if (cfg->intf_en)
		out_ctl |= BIT(19);

	SDE_REG_WRITE(c, MDP_OUT_CTL_0, out_ctl);
}

static bool sde_hw_setup_clk_force_ctrl(struct sde_hw_mdp *mdp,
		enum sde_clk_ctrl_type clk_ctrl, bool enable)
{
	struct sde_hw_blk_reg_map *c;
	u32 reg_off, bit_off;
	u32 reg_val, new_val;
	bool clk_forced_on;

	if (!mdp)
		return false;

	c = &mdp->hw;

	if (clk_ctrl <= SDE_CLK_CTRL_NONE || clk_ctrl >= SDE_CLK_CTRL_MAX)
		return false;

	reg_off = mdp->caps->clk_ctrls[clk_ctrl].reg_off;
	bit_off = mdp->caps->clk_ctrls[clk_ctrl].bit_off;

	reg_val = SDE_REG_READ(c, reg_off);

	if (enable)
		new_val = reg_val | BIT(bit_off);
	else
		new_val = reg_val & ~BIT(bit_off);

	SDE_REG_WRITE(c, reg_off, new_val);
	wmb(); /* ensure write finished before progressing */

	clk_forced_on = !(reg_val & BIT(bit_off));

	return clk_forced_on;
}


static void sde_hw_get_danger_status(struct sde_hw_mdp *mdp,
		struct sde_danger_safe_status *status)
{
	struct sde_hw_blk_reg_map *c;
	u32 value;

	if (!mdp || !status)
		return;

	c = &mdp->hw;

	value = SDE_REG_READ(c, DANGER_STATUS);
	status->mdp = (value >> 0) & 0x3;
	status->sspp[SSPP_VIG0] = (value >> 4) & 0x3;
	status->sspp[SSPP_VIG1] = (value >> 6) & 0x3;
	status->sspp[SSPP_VIG2] = (value >> 8) & 0x3;
	status->sspp[SSPP_VIG3] = (value >> 10) & 0x3;
	status->sspp[SSPP_RGB0] = (value >> 12) & 0x3;
	status->sspp[SSPP_RGB1] = (value >> 14) & 0x3;
	status->sspp[SSPP_RGB2] = (value >> 16) & 0x3;
	status->sspp[SSPP_RGB3] = (value >> 18) & 0x3;
	status->sspp[SSPP_DMA0] = (value >> 20) & 0x3;
	status->sspp[SSPP_DMA1] = (value >> 22) & 0x3;
	status->sspp[SSPP_DMA2] = (value >> 28) & 0x3;
	status->sspp[SSPP_DMA3] = (value >> 30) & 0x3;
	status->sspp[SSPP_CURSOR0] = (value >> 24) & 0x3;
	status->sspp[SSPP_CURSOR1] = (value >> 26) & 0x3;
	status->wb[WB_0] = 0;
	status->wb[WB_1] = 0;
	status->wb[WB_2] = (value >> 2) & 0x3;
	status->wb[WB_3] = 0;
}

static void _update_vsync_source(struct sde_hw_mdp *mdp,
		struct sde_vsync_source_cfg *cfg)
{
	struct sde_hw_blk_reg_map *c;
	u32 reg, wd_load_value, wd_ctl, wd_ctl2;

	if (!mdp || !cfg)
		return;

	c = &mdp->hw;

	if (cfg->vsync_source >= SDE_VSYNC_SOURCE_WD_TIMER_4 &&
			cfg->vsync_source <= SDE_VSYNC_SOURCE_WD_TIMER_0) {
		switch (cfg->vsync_source) {
		case SDE_VSYNC_SOURCE_WD_TIMER_4:
			wd_load_value = MDP_WD_TIMER_4_LOAD_VALUE;
			wd_ctl = MDP_WD_TIMER_4_CTL;
			wd_ctl2 = MDP_WD_TIMER_4_CTL2;
			break;
		case SDE_VSYNC_SOURCE_WD_TIMER_3:
			wd_load_value = MDP_WD_TIMER_3_LOAD_VALUE;
			wd_ctl = MDP_WD_TIMER_3_CTL;
			wd_ctl2 = MDP_WD_TIMER_3_CTL2;
			break;
		case SDE_VSYNC_SOURCE_WD_TIMER_2:
			wd_load_value = MDP_WD_TIMER_2_LOAD_VALUE;
			wd_ctl = MDP_WD_TIMER_2_CTL;
			wd_ctl2 = MDP_WD_TIMER_2_CTL2;
			break;
		case SDE_VSYNC_SOURCE_WD_TIMER_1:
			wd_load_value = MDP_WD_TIMER_1_LOAD_VALUE;
			wd_ctl = MDP_WD_TIMER_1_CTL;
			wd_ctl2 = MDP_WD_TIMER_1_CTL2;
			break;
		case SDE_VSYNC_SOURCE_WD_TIMER_0:
		default:
			wd_load_value = MDP_WD_TIMER_0_LOAD_VALUE;
			wd_ctl = MDP_WD_TIMER_0_CTL;
			wd_ctl2 = MDP_WD_TIMER_0_CTL2;
			break;
		}

		if (cfg->is_dummy) {
			SDE_REG_WRITE(c, wd_ctl2, 0x0);
		} else {
			SDE_REG_WRITE(c, wd_load_value,
				CALCULATE_WD_LOAD_VALUE(cfg->frame_rate));

			SDE_REG_WRITE(c, wd_ctl, BIT(0)); /* clear timer */
			reg = SDE_REG_READ(c, wd_ctl2);
			reg |= BIT(8);		/* enable heartbeat timer */
			reg |= BIT(0);		/* enable WD timer */
			SDE_REG_WRITE(c, wd_ctl2, reg);
		}

		/* make sure that timers are enabled/disabled for vsync state */
		wmb();
	}
}

static void sde_hw_setup_vsync_source(struct sde_hw_mdp *mdp,
		struct sde_vsync_source_cfg *cfg)
{
	struct sde_hw_blk_reg_map *c;
	u32 reg, i;
	static const u32 pp_offset[PINGPONG_MAX] = {0xC, 0x8, 0x4, 0x13, 0x18};

	if (!mdp || !cfg || (cfg->pp_count > ARRAY_SIZE(cfg->ppnumber)))
		return;

	c = &mdp->hw;
	reg = SDE_REG_READ(c, MDP_VSYNC_SEL);
	for (i = 0; i < cfg->pp_count; i++) {
		int pp_idx = cfg->ppnumber[i] - PINGPONG_0;

		if (pp_idx >= ARRAY_SIZE(pp_offset))
			continue;

		reg &= ~(0xf << pp_offset[pp_idx]);
		reg |= (cfg->vsync_source & 0xf) << pp_offset[pp_idx];
	}
	SDE_REG_WRITE(c, MDP_VSYNC_SEL, reg);

	_update_vsync_source(mdp, cfg);
}

static void sde_hw_setup_vsync_source_v1(struct sde_hw_mdp *mdp,
		struct sde_vsync_source_cfg *cfg)
{
	_update_vsync_source(mdp, cfg);
}


static void sde_hw_get_safe_status(struct sde_hw_mdp *mdp,
		struct sde_danger_safe_status *status)
{
	struct sde_hw_blk_reg_map *c;
	u32 value;

	if (!mdp || !status)
		return;

	c = &mdp->hw;

	value = SDE_REG_READ(c, SAFE_STATUS);
	status->mdp = (value >> 0) & 0x1;
	status->sspp[SSPP_VIG0] = (value >> 4) & 0x1;
	status->sspp[SSPP_VIG1] = (value >> 6) & 0x1;
	status->sspp[SSPP_VIG2] = (value >> 8) & 0x1;
	status->sspp[SSPP_VIG3] = (value >> 10) & 0x1;
	status->sspp[SSPP_RGB0] = (value >> 12) & 0x1;
	status->sspp[SSPP_RGB1] = (value >> 14) & 0x1;
	status->sspp[SSPP_RGB2] = (value >> 16) & 0x1;
	status->sspp[SSPP_RGB3] = (value >> 18) & 0x1;
	status->sspp[SSPP_DMA0] = (value >> 20) & 0x1;
	status->sspp[SSPP_DMA1] = (value >> 22) & 0x1;
	status->sspp[SSPP_DMA2] = (value >> 28) & 0x1;
	status->sspp[SSPP_DMA3] = (value >> 30) & 0x1;
	status->sspp[SSPP_CURSOR0] = (value >> 24) & 0x1;
	status->sspp[SSPP_CURSOR1] = (value >> 26) & 0x1;
	status->wb[WB_0] = 0;
	status->wb[WB_1] = 0;
	status->wb[WB_2] = (value >> 2) & 0x1;
	status->wb[WB_3] = 0;
}

static void sde_hw_setup_dce(struct sde_hw_mdp *mdp, u32 dce_sel)
{
	struct sde_hw_blk_reg_map *c;

	if (!mdp)
		return;

	c = &mdp->hw;

	SDE_REG_WRITE(c, DCE_SEL, dce_sel);
}

void sde_hw_reset_ubwc(struct sde_hw_mdp *mdp, struct sde_mdss_cfg *m)
{
	struct sde_hw_blk_reg_map c;
	u32 ubwc_version;

	if (!mdp || !m)
		return;

	/* force blk offset to zero to access beginning of register region */
	c = mdp->hw;
	c.blk_off = 0x0;
	ubwc_version = SDE_REG_READ(&c, UBWC_DEC_HW_VERSION);

	if (IS_UBWC_40_SUPPORTED(ubwc_version)) {
		u32 ver = 2;
		u32 mode = 1;
		u32 reg = (m->mdp[0].ubwc_swizzle & 0x7) |
			((m->mdp[0].ubwc_static & 0x1) << 3) |
			((m->mdp[0].highest_bank_bit & 0x7) << 4) |
			((m->macrotile_mode & 0x1) << 12);

		if (IS_UBWC_30_SUPPORTED(m->ubwc_version)) {
			ver = 1;
			mode = 0;
		}

		SDE_REG_WRITE(&c, UBWC_STATIC, reg);
		SDE_REG_WRITE(&c, UBWC_CTRL_2, ver);
		SDE_REG_WRITE(&c, UBWC_PREDICTION_MODE, mode);
	} else if (IS_UBWC_20_SUPPORTED(ubwc_version)) {
		SDE_REG_WRITE(&c, UBWC_STATIC, m->mdp[0].ubwc_static);
	} else if (IS_UBWC_30_SUPPORTED(ubwc_version)) {
		u32 reg = m->mdp[0].ubwc_static |
			(m->mdp[0].ubwc_swizzle & 0x1) |
			((m->mdp[0].highest_bank_bit & 0x3) << 4) |
			((m->macrotile_mode & 0x1) << 12);

		if (IS_UBWC_30_SUPPORTED(m->ubwc_version))
			reg |= BIT(10);
		if (IS_UBWC_10_SUPPORTED(m->ubwc_version))
			reg |= BIT(8);

		SDE_REG_WRITE(&c, UBWC_STATIC, reg);
	} else {
		SDE_ERROR("Unsupported UBWC version 0x%08x\n", ubwc_version);
	}
}

static void sde_hw_intf_audio_select(struct sde_hw_mdp *mdp)
{
	struct sde_hw_blk_reg_map *c;

	if (!mdp)
		return;

	c = &mdp->hw;

	SDE_REG_WRITE(c, HDMI_DP_CORE_SELECT, 0x1);
}

static void sde_hw_mdp_events(struct sde_hw_mdp *mdp, bool enable)
{
	struct sde_hw_blk_reg_map *c;

	if (!mdp)
		return;

	c = &mdp->hw;

	SDE_REG_WRITE(c, HW_EVENTS_CTL, enable);
}

struct sde_hw_sid *sde_hw_sid_init(void __iomem *addr,
	u32 sid_len, const struct sde_mdss_cfg *m)
{
	struct sde_hw_sid *c;

	c = kzalloc(sizeof(*c), GFP_KERNEL);
	if (!c)
		return ERR_PTR(-ENOMEM);

	c->hw.base_off = addr;
	c->hw.blk_off = 0;
	c->hw.length = sid_len;
	c->hw.hwversion = m->hwversion;
	c->hw.log_mask = SDE_DBG_MASK_SID;

	return c;
}

void sde_hw_sid_rotator_set(struct sde_hw_sid *sid)
{
	SDE_REG_WRITE(&sid->hw, ROT_SID_RD, ROT_SID_ID_VAL);
	SDE_REG_WRITE(&sid->hw, ROT_SID_WR, ROT_SID_ID_VAL);
}

static void sde_hw_program_cwb_ppb_ctrl(struct sde_hw_mdp *mdp,
		bool dual, bool dspp_out)
{
	u32 value = dspp_out ? 0x4 : 0x0;

	SDE_REG_WRITE(&mdp->hw, PPB2_CNTL, value);
	if (dual) {
		value |= 0x1;
		SDE_REG_WRITE(&mdp->hw, PPB3_CNTL, value);
	}
}

static void sde_hw_set_hdr_plus_metadata(struct sde_hw_mdp *mdp,
		u8 *payload, u32 len, u32 stream_id)
{
	u32 i;
	size_t length = len - 1;
	u32 offset = 0, data = 0, byte_idx = 0;
	const u32 dword_size = sizeof(u32);

	if (!payload || !len) {
		SDE_ERROR("invalid payload with length: %d\n", len);
		return;
	}

	if (stream_id)
		offset = DP_DHDR_MEM_POOL_1_DATA - DP_DHDR_MEM_POOL_0_DATA;

	/* payload[0] is set in VSCEXT header byte 1, skip programming here */
	SDE_REG_WRITE(&mdp->hw, DP_DHDR_MEM_POOL_0_NUM_BYTES + offset, length);
	for (i = 1; i < len; i++) {
		if (byte_idx && !(byte_idx % dword_size)) {
			SDE_REG_WRITE(&mdp->hw, DP_DHDR_MEM_POOL_0_DATA +
				offset, data);
			data = 0;
		}

		data |= payload[i] << (8 * (byte_idx++ % dword_size));
	}

	SDE_REG_WRITE(&mdp->hw, DP_DHDR_MEM_POOL_0_DATA + offset, data);
}

static void _setup_mdp_ops(struct sde_hw_mdp_ops *ops,
		unsigned long cap)
{
	ops->setup_split_pipe = sde_hw_setup_split_pipe;
	ops->setup_pp_split = sde_hw_setup_pp_split;
	ops->setup_cdm_output = sde_hw_setup_cdm_output;
	ops->setup_clk_force_ctrl = sde_hw_setup_clk_force_ctrl;
	ops->get_danger_status = sde_hw_get_danger_status;
	ops->setup_vsync_source = sde_hw_setup_vsync_source;
	ops->set_cwb_ppb_cntl = sde_hw_program_cwb_ppb_ctrl;
	ops->get_safe_status = sde_hw_get_safe_status;
	ops->get_split_flush_status = sde_hw_get_split_flush;
	ops->setup_dce = sde_hw_setup_dce;
	ops->reset_ubwc = sde_hw_reset_ubwc;
	ops->intf_audio_select = sde_hw_intf_audio_select;
	ops->set_mdp_hw_events = sde_hw_mdp_events;
	if (cap & BIT(SDE_MDP_VSYNC_SEL))
		ops->setup_vsync_source = sde_hw_setup_vsync_source;
	else
		ops->setup_vsync_source = sde_hw_setup_vsync_source_v1;
	if (cap & BIT(SDE_MDP_DHDR_MEMPOOL))
		ops->set_hdr_plus_metadata = sde_hw_set_hdr_plus_metadata;
}

static const struct sde_mdp_cfg *_top_offset(enum sde_mdp mdp,
		const struct sde_mdss_cfg *m,
		void __iomem *addr,
		struct sde_hw_blk_reg_map *b)
{
	int i;

	if (!m || !addr || !b)
		return ERR_PTR(-EINVAL);

	for (i = 0; i < m->mdp_count; i++) {
		if (mdp == m->mdp[i].id) {
			b->base_off = addr;
			b->blk_off = m->mdp[i].base;
			b->length = m->mdp[i].len;
			b->hwversion = m->hwversion;
			b->log_mask = SDE_DBG_MASK_TOP;
			return &m->mdp[i];
		}
	}

	return ERR_PTR(-EINVAL);
}

static struct sde_hw_blk_ops sde_hw_ops = {
	.start = NULL,
	.stop = NULL,
};

struct sde_hw_mdp *sde_hw_mdptop_init(enum sde_mdp idx,
		void __iomem *addr,
		const struct sde_mdss_cfg *m)
{
	struct sde_hw_mdp *mdp;
	const struct sde_mdp_cfg *cfg;
	int rc;

	if (!addr || !m)
		return ERR_PTR(-EINVAL);

	mdp = kzalloc(sizeof(*mdp), GFP_KERNEL);
	if (!mdp)
		return ERR_PTR(-ENOMEM);

	cfg = _top_offset(idx, m, addr, &mdp->hw);
	if (IS_ERR_OR_NULL(cfg)) {
		kfree(mdp);
		return ERR_PTR(-EINVAL);
	}

	/*
	 * Assign ops
	 */
	mdp->idx = idx;
	mdp->caps = cfg;
	_setup_mdp_ops(&mdp->ops, mdp->caps->features);

	rc = sde_hw_blk_init(&mdp->base, SDE_HW_BLK_TOP, idx, &sde_hw_ops);
	if (rc) {
		SDE_ERROR("failed to init hw blk %d\n", rc);
		goto blk_init_error;
	}

	sde_dbg_reg_register_dump_range(SDE_DBG_NAME, cfg->name,
			mdp->hw.blk_off, mdp->hw.blk_off + mdp->hw.length,
			mdp->hw.xin_id);
	sde_dbg_set_sde_top_offset(mdp->hw.blk_off);

	return mdp;

blk_init_error:
	kzfree(mdp);

	return ERR_PTR(rc);
}

void sde_hw_mdp_destroy(struct sde_hw_mdp *mdp)
{
	if (mdp)
		sde_hw_blk_destroy(&mdp->base);
	kfree(mdp);
}